Speaker
Description
Summary
The antiproton source and collider scenarios at the Tevatron yield accumulation of >2 x 1011 /hr, cooling and stacking of >2 x 1012 in 10 hr. Control of emittance growth mechanisms yields collisions with luminosity >2 x 1032 cm-2s-1 in each store and luminosity lifetime >10 hr. Nb3Sn dipole development has yielded field strength >16 T, and 4-m-long coils using this technology have been tested successfully. We present a conceptual for a 100 TeV collider in which a single 16 T magnet ring is located in the SSC tunnel, and discuss issues from synchrotron radiation, electron cloud effect, and beam separation.
Here we examine the case for a collider of 100 TeV energy and 1035 cm-2s-1 luminosity: the technology for a 16.5 T magnet ring, control of synchrotron light emitted by the beams, the elimination of subsidiary bunch cross-ings, the luminosity scaled from Tevatron performance, the SSC tunnel in Waxahatchie, and the physics potential of hadron collisions at 100 TeV.